The Role of Bifidobacterium bifidum novaBBF7, Bifidobacterium longum novaBLG2 and Lactobacillus paracasei TJB8 to Improve Mechanisms Linked to Neuronal Cells Protection against Oxidative Condition in a Gut-Brain Axis Model.

Despite the identification of several innovative targets for avoiding cognitive decline, there has yet to be a widely accepted approach that deals with minimising the deterioration of cognitive function. In this light, recent studies suggest that regulating the gut-brain axis with probiotics is a potential therapeutic strategy to support brain health. For this reason, in vitro models were used to examine the efficacy of different probiotic combinations to enhance intestinal homeostasis and positively affect the brain. Therefore, the new formulation has been evaluated for its capacity to modify intestinal barrier functions in a 3D in vitro model without any adverse effects and directly impact the mechanisms underlying cognitive function in a gut-brain axis model. According to our findings, B. bifidum novaBBF7 10 mg/mL, B. longum novaBLG2 5 mg/mL and L. paracasei TJB8 10 mg/mL may successfully modify the intestinal barrier and improve SCFA production. Successively, the probiotics studied caused no harm at the neuronal level, as demonstrated by iNOS, mitochondrial potential, and cell viability tests, confirming their safety features and enhancing antioxidant mechanisms and antineuroinflammation activity. Additionally, the damage caused by oxidative stress was also healed, and critical pathways that result in cognitive impairment were changed by synergetic action, supporting the hypothesis that brain ageing and neurodegeneration are slowed down. All these findings demonstrate the ability of probiotics to affect cognitive processes and their ability to sustain the mechanisms underlying cognitive function by acting on intestinal function.

Lipid targets during statin treatment in dyslipidemic patients affected by nonalcoholic fatty liver disease.

INTRODUCTION: Nonalcoholic fatty liver disease (NAFLD) is associated with both dyslipidemia and increased risk for cardiovascular disease. Despite the indication to treat in patients affected by both dyslipidemia and NAFLD, an undertreatment in statin therapy due to the potential liver damage is frequently observed. We sought to evaluate retrospectively the impact of statin on the lipid profile and on the achievement of low-density lipoprotein (LDL) cholesterol targets in relation to the National Cholesterol Education Program--Adult Treatment Panel III-cardiovascular risk in dyslipidemic patients presenting with a clinical--diagnosis of NAFLD and elevated liver enzymes before statin prescription. As a secondary endpoint, the authors investigated whether statin could be associated with changes of liver enzymes. METHODS: Forty-three patients with dyslipidemic NAFLD presenting with increased values of aspartate aminotransferase and/or alanine aminotransferase and/or γ-glutamyl-transferase at baseline were analyzed retrospectively as regard the lipid profile and liver enzymes (values reported before statin and during statin therapy). RESULTS: Total cholesterol, LDL and triglycerides were significantly reduced at follow-up (5.4 ± 5.4 months). The LDL target was achieved at the second visit in 30 patients (69.8%).The number of patients achieving the LDL target was significantly higher in low-risk group compared with moderate- and high-risk subjects. Liver enzyme levels showed no significant changes between baseline and follow-up. CONCLUSIONS: Statin treatment was effective (without changes in liver enzymes) in patients with dyslipidemia and NAFLD and therefore, affected by a profound alteration in lipoprotein metabolism. The number of patients achieving LDL target was related to the Adult Treatment Panel III risk classification, being higher in patients with lower risk.